Authors: O.Krishevich, V.Peretyachenko
This article must be read using a two-level engineering model. At the complete device boundary, total external input must account for delivered output, irreversible losses, and change in stored energy. At the internal regime level, energy may be redistributed across repeated electrodynamic events, feedback paths, and resonant storage elements. These two analytical levels must never be collapsed into a single model.
Accordingly, a low-voltage control input must not be compared directly with continuous output power without first defining the full device boundary and without relating event energy to repetition frequency. In nonlinear electrodynamic systems, microscopic event energy and macroscopic average power are linked through time and frequency, not through naive voltage comparison.
This article does not claim energy creation, energy extraction from air, or exemption from conservation laws. It explains the correct metrological and physical framework for interpreting regime-based electrodynamic systems.
This article describes a regime-based open electrodynamic system in which energy roles are separated:
Correct interpretation requires full boundary-defined active power accounting across all ports. This framework is often incorrectly discussed under labels such as "free energy" or "overunity," which results from incorrect system boundary definition and improper measurement methodology.
This article explains the analytical framework for evaluating managed electrodynamic systems operating in open-system regimes. It is NOT a public performance claim, NOT an invitation to infer specific power figures, and NOT a substitute for independent testing under documented measurement protocols. Specific system validation status is provided exclusively through controlled access channels. This framework applies across multiple Technology Readiness Levels. The presence of a correct analytical model does not imply completion of independent laboratory validation at the time of SAFE-stage investment.
Any voltage ranges, power scales, or numerical examples referenced below are illustrative and are used solely to explain metrological principles. They must not be interpreted as published performance data for VENDOR.Energy or any specific implementation.
Critical prerequisite: Any kilowatt-scale output power must have an identifiable source of active power within the complete energy balance.
This article does NOT claim that kilowatts are "extracted from weak atmospheric fields." It asserts only that 9–18 V applied to a control input is not, by itself, sufficient for evaluating total system energy balance. The relevant quantity is total external electrical input crossing the complete device boundary under a defined measurement protocol.
Correct evaluation is possible only when:
At the complete device boundary, there is only one admissible net energy input: external electrical input crossing the defined device boundary. All internal return paths, resonant redistribution, avalanche processes, and control functions operate using energy already accounted for at this boundary. They do not constitute independent energy sources.
The complete boundary-level balance is:
$$P_{\text{in,boundary}} = P_{\text{load}} + P_{\text{losses}} + \frac{dE}{dt}$$
Any internal analytical decomposition must remain subordinate to this boundary-level conservation law.
Among investors, technical analysts, and even engineers, one of the most prevalent reactions to a system using a control input of several volts while delivering kilowatt-scale output power is an automatic triggering of a skeptical pattern: "This appears inconsistent with energy conservation and therefore requires careful evaluation."
The logic appears irrefutable at first glance. However, this logic represents an incorrectly chosen model of physical reality. Once we determine which model actually applies, everything falls into place.
The purpose of this article is not to defend any particular technology, but to explain where the misclassification arises, where precisely it breaks down at the level of fundamental physics, and how to correctly analyze such systems in engineering and investment contexts.
Systems of this class are often incorrectly labeled as "free energy" or "overunity devices." This classification arises when:
When properly analyzed using boundary-defined active power measurement, these systems do not violate energy conservation laws. They require correct metrology, not reinterpretation of physics.
Humans developed in a world of closed systems. Nearly everything in our experience obeys one principle:
Output power cannot exceed input power, accounting for losses.
Examples:
This model is so firmly embedded in consciousness that humans apply it automatically to nearly everything.
Therefore, when someone states: "Control input 9 V, yet output is several kilowatts," the brain processes it as:
This reasoning would be absolutely correct if the control input were the only energy source within the system.
But control and power delivery are distinct functions.
In physics and engineering, there exists a class of systems categorically distinct from consumer appliances.
An open system is one that exchanges energy and/or matter with its surrounding environment through defined ports and boundaries. Its complete energy balance includes not only discrete components visible as separate objects, but also boundary conditions and all energy transport channels interacting with the environment.
Real-world examples:
The critical distinction: In an open system, the control signal and the primary power flow are not evaluated as the same quantity; conservation is assessed by measuring all power-flow paths across a clearly defined boundary. Therefore, system evaluation must be based on total boundary-accounted input, not on the control-input node alone.
In this article, an open system means a system whose complete analysis requires explicit boundary definition and accounting of all measurable transport channels. It does not mean that the environment is assumed to be a kilowatt-scale energy source. In VENDOR-type interpretation, the working medium is a regime-forming interaction medium, not a net energy source.
This section establishes the criteria by which credible technical programs are distinguished from non-credible claims.
Criterion 1: Repeatability
Criterion 2: Measurability (across all active power ports)
Criterion 3: Process Transparency
Criterion 4: Independent Validation
Criterion 5: Certification and Standards Compliance
Criterion 6: Technology Readiness Level (TRL) Status
Criterion 7: Economic Rationale
Criterion 1: Magic Instead of Physics
Criterion 2: Refusal of Independent Verification
Criterion 3: Promises Without Evidence
Criterion 4: Capital Demand Before Demonstration
Criterion 5: Verbal Obscuration Instead of Measurement
Criterion 6: Refusal to Correctly Define System Boundary
All legitimate technologies follow the path described by NASA TRL:
This section provides a classification framework for how VENDOR-type managed electrodynamic systems should be evaluated from a metrology and open-systems standpoint. It does not disclose device architecture, does not publish performance figures, and does not imply completion of independent laboratory validation.
Public patent disclosures (e.g., WO2024209235) describe a class of architectures that can be analyzed as open electrodynamic systems with explicitly defined boundaries and measurable ports. In such systems, a low-voltage control stage may coexist with substantially larger boundary-accounted power transfer. For correct evaluation, the relevant quantity is total external electrical input across the complete device boundary, not the control node considered in isolation. See: Patent Portfolio.
NOTE: Any VENDOR-specific validation status, test artifacts, and measurement reports are provided exclusively via controlled access channels and must not be inferred from this explanatory framework.
Generator: A device that creates energy from a source located within itself or in an explicitly defined, controlled input.
Examples: Internal combustion engine (burns fuel, releasing chemical energy transformed to mechanical), battery (chemical reaction powering electron flow), radioactive source (nuclear decays producing radiation and kinetic energy).
Defining characteristic: The energy source resides within the device or in an explicitly specified, controlled entry port.
Transducer: A device that converts one form of energy into another; the complete energy balance is correctly described only when all energy transport ports are accounted for; the control input does not equal the primary power flow.
Examples: Wind turbine (energy from atmospheric wind becomes electricity; the device does not create wind, it transforms it); hydroelectric turbine (gravitational and kinetic energy of falling water becomes electricity); microphone (acoustic waves from the environment become electrical signal); photovoltaic cell (photons from space become electricity).
VENDOR (evaluation framing): If a tested configuration includes a low-power control stage (e.g., 9–18 V), this fact alone does not determine the source of active output power. The source must be identified through explicit ports in the defined boundary and verified by independent active-power metrology and thermal cross-check, as applicable.
A useful engineering comparison can be made with the Faraday generator. In both cases, useful current in the extraction circuit appears only when the system first establishes the conditions required for electromagnetic induction.
In the classical Faraday generator, these induction conditions are created by mechanical excitation: relative motion of a conductor and a magnetic field produces a time-varying electrodynamic configuration from which EMF and current arise in the external circuit. In the VENDOR-type architecture, the analogous induction conditions are formed not by rotor motion, but by a controlled impulse-discharge-resonance regime in a stationary structure.
The engineering difference therefore lies not in whether induction is involved, but in how the field-forming regime is created and sustained. In classical electromechanical machines this requires continuous mechanical drive. In the present architecture, regime formation is achieved through controlled electrodynamic processes, resonant field organization, and regulated internal mode support.
This does not imply that the regime-forming function is energy-free. It means only that the energy required to establish and sustain induction conditions must be analyzed separately from the energy delivered through the extraction path, and always within the complete boundary-defined energy balance.
At the regime level, the field-forming function and the extraction function play different roles. The energy required to sustain the mode should not be conflated with the total power delivered through the output path. These quantities are related, but they are not the same analytical quantity.
In both cases, EMF and useful current in the extraction circuit arise from a changing electromagnetic field configuration. The difference lies in how the field is established: mechanically in classical systems, and electrodynamically in regime-based systems.
For open systems, energy conservation must be evaluated for the combined "system plus environment" by explicitly defining the boundary and measuring power flow across all relevant ports.
For a control volume, the First Law can be written as:
$$\frac{dE_{cv}}{dt} = \dot{Q} - \dot{W} + \sum \dot{m}_{\text{in}}\!\left(h + \frac{v^2}{2} + gz\right) - \sum \dot{m}_{\text{out}}\!\left(h + \frac{v^2}{2} + gz\right)$$
where \(\dot{Q}\) represents heat transfer across the boundary, \(\dot{W}\) includes electrical power transfer across explicitly defined ports (computed as \(\frac{1}{T}\int_0^T v(t)\,i(t)\,dt\) per port) and any mechanical work terms, \(\dot{m}\) represents mass flow rates, \(h\) represents specific enthalpy, \(v\) represents velocity, and \(z\) represents elevation. In steady state, the stored energy in the control volume is approximately constant (\(\frac{dE_{cv}}{dt} \approx 0\)), so net energy inflow equals net outflow plus losses, within the stated measurement uncertainty budget.
In such systems, output power may be significantly greater than the power visible at a low-voltage control node. Correct evaluation therefore requires measurement of total external electrical input across the complete device boundary, not comparison with the control node alone.
To exclude categorical errors, the system must be analyzed as a control volume with explicit ports.
Minimum necessary definitions:
Subsequently, active power is measured as the time-average of instantaneous power: \( P_{\text{active}} = \frac{1}{T}\int_0^T v(t)\,i(t)\,dt \)
Measurement protocols must comply with applicable standards (IEEE 1459, IEC 61000-4-30) regarding synchronization and bandwidth. Specific implementation details are disclosed exclusively through controlled access channels.
All conclusions about energy balance are drawn exclusively from the sum of active power flows, not from ratios of output to control input.
Resonance does NOT create energy. It redistributes energy when active power is already supplied to the system and correctly measured.
The Tesla coil provides the classical example:
Physical mechanism: Energy progressively transfers from the primary circuit to the secondary; energy shifts in parameter space (voltage exchanges with current).
Critical point: In practice, resonance is best treated as a high-Q energy redistribution mechanism in a bounded resonant network: it can increase amplitudes (V/I trade-offs) without creating energy, provided that active power is supplied through explicitly defined ports and correctly measured. Resonance permits amplitude increase and transition from low-voltage, high-current regime to high-voltage, low-current regime (or vice versa), only when active power is already supplied and measured.
Resonance functions as a redistribution mechanism within a bounded energy network, efficiently moving energy between electrical and magnetic field domains without violating its complete balance.
Plasma in gas (air) is the fourth state of matter: ionized gas.
When air ionizes, it becomes a conducting and nonlinear medium capable of:
Critical point: In VENDOR-type systems, plasma discharges function not as an energy source but as a controlled nonlinear transducer that:
Plasma acts as a switching and impedance-modulating nonlinear element, determining the regime of energy circulation and transformation, not as a primary energy source.
This represents the critical distinction between the false claim that "plasma creates energy" and the correct statement that "plasma governs the regime of energy flows."
More precisely, avalanche and discharge processes increase charge carrier density, conductivity, and current amplitude, but the energy of accelerated charges originates from the electric field established by externally supplied electrical energy, not from the gas medium itself.
For the electrodynamic and resonant regime principles underlying this framework, see: Scientific Foundations.
Many false "overunity" conclusions arise from incorrect measurement practices:
Correct methodology requires time-synchronous measurement of voltage and current, integration of instantaneous power, and full boundary definition before testing begins.
In pulsed, resonant, and regime-based systems, a single internal event may involve only a small amount of energy, expressed in joules. However, continuous output power depends not only on the energy of one event, but also on how often such events occur.
The correct relation is:
$$P = E_{\text{event}} \cdot f$$
where \(E_{\text{event}}\) is the energy associated with one effective event and \(f\) is the event repetition frequency.
A common analytical mistake is to compare a small per-event energy with a large continuous power level without accounting for repetition frequency. This conflates microscopic event scale with macroscopic time-averaged power scale.
For example, millijoule-scale events repeated at megahertz frequencies correspond to kilowatt-scale average power:
$$0.001\,\text{J} \times 1{,}000{,}000\,\text{s}^{-1} = 1000\,\text{W}$$
This relation does not imply energy creation. It expresses a standard time-averaged power identity.
At the internal regime level, one may write:
$$E_{\text{extract,event}} = E_{\text{load,event}} + E_{\text{fb,event}} + E_{\text{loss,event}}$$
or, in power form under stationary repetition:
$$P_{\text{extract}} = P_{\text{load}} + P_{\text{fb}} + P_{\text{loss}}$$
This describes only the internal partition of energy already present within the organized regime. Internal feedback terms are redistribution terms already accounted for within boundary-level external input, not additional external sources. It does not replace, override, or reduce the complete boundary-level requirement:
$$P_{\text{in,boundary}} = P_{\text{load}} + P_{\text{losses}} + \frac{dE}{dt}$$
In nonlinear and non-sinusoidal electrodynamic systems, correct interpretation requires both time-domain and frequency-aware analysis. The relevant question is not merely how many volts appear at a control node, but how much active power crosses the full device boundary over time, and how event energy is distributed across repeated cycles.
See also: How VENDOR.Max Electrodynamic Architecture Works
It is incorrect to employ: Efficiency equals output divided by control input.
This does not represent system efficiency; rather, it is the ratio of output to control signal, an entirely different quantity.
It is equivalent to asking "What is the efficiency of a cloud?" This represents a categorical error.
Classical analogy: A hydroelectric dam may use a 12 V control system to actuate valves, while the primary power flow originates from the gravitational potential of the reservoir. Comparing turbine output to the control battery power is meaningless; correct analysis requires defining the system boundary and measuring energy flows across all relevant ports.
Correct efficiency is possible only relative to the complete input of active power across all defined system ports:
$$\eta = \frac{P_{\text{out}}}{\displaystyle\sum P_{\text{in, across all ports}}}$$
The sum extends over all ports through which active power enters, measured as \(\frac{1}{T}\int_0^T v(t)\,i(t)\,dt\).
For non-sinusoidal and pulsed regimes, the active power components across all ports must be summed after accounting for phase angle, harmonic content, and possible bidirectional (four-quadrant) power flows. This is distinct from simple RMS calculations.
If the complete input of active power is neither defined nor measured, then any claims regarding efficiency (including exceeding 100 percent) are methodologically invalid.
Accordingly, any ratio of output power to low-voltage control input alone is not an efficiency metric. It is a boundary-definition error.
This is not opinion; it is a requirement of metrology and thermodynamic analysis.
Incorrect: "Open system means kilowatts are drawn from the atmosphere."
Correct: "Open system means exchange through defined ports. The source of active power must be identified as a concrete port and measured as \(\frac{1}{T}\int_0^T v(t)\,i(t)\,dt\)."
Incorrect: "The boundary is very vague, it could be here or there."
Correct: "The boundary is explicitly defined and contains a list of ports: control input, load output, return path, thermal circuit, electromagnetic coupling channels, radiated/conducted emissions paths, and measurement equipment."
Incorrect: "Output 10 kW, control input 10 W, efficiency equals 100,000 percent, physics is violated!"
Correct: "If the complete active power input across all ports is 10 kW, then efficiency equals 10 kW divided by 10 kW, which equals 100 percent, and physics is satisfied."
The human brain evolved in a world of closed systems. Nearly 99 percent of devices with which people interact daily—batteries, motors, heaters, lights, chargers, computers—are closed systems where the energy source is visibly apparent and limited.
Therefore, when encountering an open system (a system operating with environmental regime parameters), the brain responds by habit:
Where is the energy source? In the battery! Does the battery power the output? No, the output is larger. Conclusion: This would indicate either a measurement error, a modeling error, or a misleading claim.
But the correct question would be: Which boundary conditions (concrete ports and energy transport channels) influence system operation? How does energy circulate within the complete system, including the environment, and how is it measured?
Environmental electromagnetic fields, atmospheric charge, and radio-frequency background are real physical phenomena. However, in this framework they are referenced only as possible boundary-coupling considerations for metrology. They are not presented here as a published kilowatt-scale source of active power.
For VENDOR-type interpretation, gas and surrounding medium are treated as regime-forming interaction media, not as net energy sources.
Incorrect interpretation: "This means the system derives high output from undefined boundary effects."
Correct interpretation: "Boundary conditions determine the system's operating regime but do not necessarily constitute the source of kilowatts. The source of active power must be explicitly identified as a port or channel and measured as \(\frac{1}{T}\int_0^T v(t)\,i(t)\,dt\)."
Incorrect: "The system is open, it somehow interacts with its environment."
Correct: "The system boundary is explicitly defined. Here is the complete list of all ports and energy transport channels. Active power is measured at each port."
For witnessed repeatability and documented protocol evidence: VENDOR.Max Endurance Test. For the full validation architecture and TRL roadmap: System Architecture & Technical Validation.
| Aspect | Non-Credible Evaluation | Credible Technical Program |
|---|---|---|
| System boundary definition | Vague or avoided | Explicit, with list of energy transport ports including measurement equipment |
| Source of active power | Undefined or hidden | Clearly identified, measured as \(\frac{1}{T}\int_0^T v(t)\,i(t)\,dt\) |
| Measurement protocol | Undescribed or suspect | According to standards (IEC 61000-4-30, IEEE 1459) with explicit uncertainty budget |
| Support equipment definition | Not specified | Explicitly included/excluded in boundary |
| Radiated/conducted emissions path | Not addressed | Treated as potential ports when relevant |
| Non-sinusoidal handling | Not addressed | Simultaneous sampling, harmonics, four-quadrant accounting |
| Independent validation | Impossible or forbidden | Welcomed and documented |
| Explanation | Magic, belief, vague | Open systems, explicit ports, mathematics |
| Capital requirement | Before demonstration | After validation |
| Test protocol | Hidden or constantly changing | Fixed, reproducible, accessible under NDA |
| Thermal balance | Not verified | Verification via documented calorimetric cross-check (enclosure/flow calorimetry or equivalent heat-balance method), within stated uncertainty |
| Protocol accessibility | "Trust us, it works" | Available to qualified engineers under NDA |
| Boundary timing | Defined after measurement | Defined before testing, fixed in protocol |
| TRL evidence | No progression | Documented TRL advancement |
Incorrect question: "This is not explained simply, therefore it is a non-credible claim, therefore I do not invest."
Or the opposite error: "This looks innovative, therefore I invest without verification."
Correct process:
This article explains why certain configurations do not violate physics. It does NOT disclose:
Such information is disclosed progressively through:
Requests for premature technical disclosure prior to engagement may indicate non-serious intent.
Do not re-classify open-system technologies as non-credible based on:
Evaluate based on:
This analytical framework is directly applicable to:
A configuration in which a 9–18 V control input coexists with kilowatt-scale output does not constitute a physics violation when:
FROM: "Output exceeds the visible control input, therefore physics is violated."
TO: "Define the boundary, identify every port, measure active power across all ports, and verify balance closure within uncertainty and thermal cross-check where applicable."
Only one thing "fails": the incorrect model of perception.
Thermodynamics of Open Systems
Metrology and Power Measurement
Technology Readiness Levels (TRL)
Electromagnetic Coupling and Resonance
Plasma Physics (as Control Element)
Correct physics requires no defense. It requires a properly defined system boundary, explicit identification of energy transport ports, and correct measurement of active power according to international metrological standards.
The distinction between open and closed systems is not a matter of opinion; it is a fundamental principle of physics and thermodynamics. When applied correctly with proper definition of system boundaries, explicit identification of energy transport ports (including measurement equipment, radiated/conducted emissions, and all coupling channels), and measurement of active power according to international standards (ISO/IEC, IEEE, IEC), this framework resolves apparent paradoxes and enables proper evaluation of innovative technologies by engineers, investors, and regulators.
No. This article does not claim energy creation, perpetual motion, or exemption from conservation laws. It explains how a regime-based electrodynamic system must be evaluated using boundary-defined active-power accounting.
No. A low-voltage control input, considered in isolation, is not sufficient for evaluating total system energy balance. The relevant quantity is total external electrical input across the complete device boundary.
No. In this framework, gas and surrounding medium are treated as regime-forming interaction media, not as net energy sources.
Because the control node and the complete system input are not the same analytical quantity. Correct evaluation requires full boundary-defined active-power accounting across all relevant ports.
Because average power depends on both event energy and repetition rate. In pulsed or resonant systems, comparing one event directly with continuous output power without frequency is a categorical error.
No. Resonance redistributes energy within an already energized system. It can change amplitudes and transfer energy efficiently, but it does not create energy.
In this article, the system is treated as a managed electrodynamic transducer framework. Its correct interpretation depends on explicit boundary definition, active-power metrology, and separation between regime formation and energy extraction.
Because in both cases useful current appears in the extraction circuit only after the system establishes the conditions required for electromagnetic induction. The engineering difference lies in how those conditions are created: mechanically in the classical machine, and electrodynamically in the stationary regime-based architecture.
No. Those labels usually arise from incorrect system boundary definition, confusing control input with total system input, or measuring voltage and current incorrectly. Proper analysis requires active-power measurement across all defined ports.
No. This page provides an analytical and metrological interpretation framework only. It is not a publication of certified performance data and not a substitute for independent validation.